void
gs_image_t_init_mask_adjust(gs_image_t * pim, bool write_1s, bool adjust)
{
gs_image_t_init(pim, NULL);
if (write_1s)
pim->Decode[0] = 1, pim->Decode[1] = 0;
else
pim->Decode[0] = 0, pim->Decode[1] = 1;
pim->adjust = adjust;
}
/* Common code for .image1 and .alphaimage operators */
int
image1_setup(i_ctx_t * i_ctx_p, bool has_alpha)
{
os_ptr op = osp;
gs_image_t image;
image_params ip;
int code;
gs_color_space *csp = gs_currentcolorspace(igs);
extern bool CPSI_mode;
/* Adobe interpreters accept sampled images when the current color
* space is a pattern color space using the base color space instead
* of the pattern space. CET 12-07a-12
* If all conditions are not met the pattern color space goes through
* triggering a rangecheck error.
*/
if (CPSI_mode && gs_color_space_num_components(csp) < 1) {
gs_color_space *bsp = csp->base_space;
if (bsp)
csp = bsp;
}
gs_image_t_init(&image, csp);
code = pixel_image_params( i_ctx_p,
op,
(gs_pixel_image_t *)&image,
&ip,
(level2_enabled ? 16 : 8),
has_alpha, csp);
if (code < 0)
return code;
image.Alpha = (has_alpha ? gs_image_alpha_last : gs_image_alpha_none);
return zimage_setup( i_ctx_p,
(gs_pixel_image_t *)&image,
&ip.DataSource[0],
image.CombineWithColor,
1 );
}
static int
test5(gs_state * pgs, gs_memory_t * mem)
{
gx_device *dev = gs_currentdevice(pgs);
gx_image_enum_common_t *info;
gx_image_plane_t planes[5];
gx_drawing_color dcolor;
int code;
static const byte data3[] =
{
0x00, 0x44, 0x88, 0xcc,
0x44, 0x88, 0xcc, 0x00,
0x88, 0xcc, 0x00, 0x44,
0xcc, 0x00, 0x44, 0x88
};
gs_color_space *gray_cs = gs_cspace_new_DeviceGray(mem);
/*
* Neither ImageType 3 nor 4 needs a current color,
* but some intermediate code assumes it's valid.
*/
set_nonclient_dev_color(&dcolor, 0);
/* Scale everything up, and fill the background. */
{
gs_matrix mat;
gs_currentmatrix(pgs, &mat);
mat.xx = gs_copysign(98.6, mat.xx);
mat.yy = gs_copysign(98.6, mat.yy);
mat.tx = floor(mat.tx) + 0.499;
mat.ty = floor(mat.ty) + 0.499;
gs_setmatrix(pgs, &mat);
}
gs_setrgbcolor(pgs, 1.0, 0.9, 0.9);
fill_rect1(pgs, 0.25, 0.25, 4.0, 6.0);
gs_setrgbcolor(pgs, 0.5, 1.0, 0.5);
#if 0
/* Make things a little more interesting.... */
gs_translate(pgs, 1.0, 1.0);
gs_rotate(pgs, 10.0);
gs_scale(pgs, 1.3, 0.9);
#endif
#define do_image(image, idata)\
BEGIN\
code = gx_device_begin_typed_image(dev, (gs_imager_state *)pgs, NULL,\
(gs_image_common_t *)&image, NULL, &dcolor, NULL, mem, &info);\
/****** TEST code >= 0 ******/\
planes[0].data = idata;\
planes[0].data_x = 0;\
planes[0].raster = (image.Height * image.BitsPerComponent + 7) >> 3;\
code = gx_image_plane_data(info, planes, image.Height);\
/****** TEST code == 1 ******/\
code = gx_image_end(info, true);\
/****** TEST code >= 0 ******/\
END
#define W 4
#define H 4
/* Test an unmasked image. */
gs_gsave(pgs);
{
gs_image1_t image1;
void *info1;
gs_color_space *cs;
cs = gs_cspace_new_DeviceGray(mem);
gs_image_t_init(&image1, cs);
/* image */
image1.ImageMatrix.xx = W;
image1.ImageMatrix.yy = -H;
image1.ImageMatrix.ty = H;
/* data_image */
image1.Width = W;
image1.Height = H;
image1.BitsPerComponent = 8;
gs_translate(pgs, 0.5, 4.0);
code = gx_device_begin_image(dev, (gs_imager_state *) pgs,
&image1, gs_image_format_chunky,
NULL, &dcolor, NULL, mem, &info1);
/****** TEST code >= 0 ******/
planes[0].data = data3;
planes[0].data_x = 0;
planes[0].raster =
(image1.Height * image1.BitsPerComponent + 7) >> 3;
/* Use the old image_data API. */
code = gx_image_data(info1, &planes[0].data, 0,
planes[0].raster, image1.Height);
/****** TEST code == 1 ******/
code = gx_image_end(info1, true);
/****** TEST code >= 0 ******/
gs_free_object(mem, cs, "colorspace");
}
gs_grestore(pgs);
/* Test an explicitly masked image. */
gs_gsave(pgs);
{
gs_image3_t image3;
static const byte data3mask[] =
{
0x60,
0x90,
0x90,
0x60
};
static const byte data3x2mask[] =
{
0x66,
0x99,
0x99,
0x66,
0x66,
0x99,
0x99,
0x66
};
gs_image3_t_init(&image3, gray_cs, interleave_scan_lines);
/* image */
image3.ImageMatrix.xx = W;
image3.ImageMatrix.yy = -H;
image3.ImageMatrix.ty = H;
/* data_image */
image3.Width = W;
image3.Height = H;
image3.BitsPerComponent = 8;
/* MaskDict */
image3.MaskDict.ImageMatrix = image3.ImageMatrix;
image3.MaskDict.Width = image3.Width;
image3.MaskDict.Height = image3.Height;
/* Display with 1-for-1 mask and image. */
gs_translate(pgs, 0.5, 2.0);
code = gx_device_begin_typed_image(dev, (gs_imager_state *) pgs,
NULL, (gs_image_common_t *) & image3,
NULL, &dcolor, NULL, mem, &info);
/****** TEST code >= 0 ******/
planes[0].data = data3mask;
planes[0].data_x = 0;
planes[0].raster = (image3.MaskDict.Height + 7) >> 3;
planes[1].data = data3;
planes[1].data_x = 0;
planes[1].raster =
(image3.Height * image3.BitsPerComponent + 7) >> 3;
code = gx_image_plane_data(info, planes, image3.Height);
/****** TEST code == 1 ******/
code = gx_image_end(info, true);
/****** TEST code >= 0 ******/
/* Display with 2-for-1 mask and image. */
image3.MaskDict.ImageMatrix.xx *= 2;
image3.MaskDict.ImageMatrix.yy *= 2;
image3.MaskDict.ImageMatrix.ty *= 2;
image3.MaskDict.Width *= 2;
image3.MaskDict.Height *= 2;
gs_translate(pgs, 1.5, 0.0);
code = gx_device_begin_typed_image(dev, (gs_imager_state *) pgs,
NULL, (gs_image_common_t *) & image3,
NULL, &dcolor, NULL, mem, &info);
/****** TEST code >= 0 ******/
planes[0].data = data3x2mask;
planes[0].raster = (image3.MaskDict.Width + 7) >> 3;
{
int i;
for (i = 0; i < H; ++i) {
planes[1].data = 0;
code = gx_image_plane_data(info, planes, 1);
planes[0].data += planes[0].raster;
/****** TEST code == 0 ******/
planes[1].data = data3 + i * planes[1].raster;
code = gx_image_plane_data(info, planes, 1);
planes[0].data += planes[0].raster;
/****** TEST code >= 0 ******/
}
}
/****** TEST code == 1 ******/
code = gx_image_end(info, true);
/****** TEST code >= 0 ******/
}
gs_grestore(pgs);
/* Test a chroma-keyed masked image. */
gs_gsave(pgs);
{
gs_image4_t image4;
const byte *data4 = data3;
gs_image4_t_init(&image4, gray_cs);
/* image */
image4.ImageMatrix.xx = W;
image4.ImageMatrix.yy = -H;
image4.ImageMatrix.ty = H;
/* data_image */
image4.Width = W;
image4.Height = H;
image4.BitsPerComponent = 8;
/* Display with a single mask color. */
gs_translate(pgs, 0.5, 0.5);
image4.MaskColor_is_range = false;
image4.MaskColor[0] = 0xcc;
do_image(image4, data4);
/* Display a second time with a color range. */
gs_translate(pgs, 1.5, 0.0);
image4.MaskColor_is_range = true;
image4.MaskColor[0] = 0x40;
image4.MaskColor[1] = 0x90;
do_image(image4, data4);
}
gs_grestore(pgs);
gs_free_object(mem, gray_cs, "test5 gray_cs");
#undef W
#undef H
#undef do_image
return 0;
}
/* Set up the color space information for a bitmap image or pattern. */
int
px_image_color_space(gs_image_t *pim,
const px_bitmap_params_t *params, const gs_string *palette,
const gs_state *pgs)
{
int depth = params->depth;
gs_color_space *pbase_pcs = NULL;
gs_color_space *pcs = NULL;
bool cie_space = false;
int code = 0;
switch ( params->color_space ) {
case eGray:
pbase_pcs = gs_cspace_new_DeviceGray(pgs->memory);
pbase_pcs->cmm_icc_profile_data = pgs->icc_manager->default_gray;
pbase_pcs->type = &gs_color_space_type_ICC;
rc_increment(pbase_pcs->cmm_icc_profile_data);
break;
case eRGB:
pbase_pcs = gs_cspace_new_DeviceRGB(pgs->memory);
pbase_pcs->cmm_icc_profile_data = pgs->icc_manager->default_rgb;
pbase_pcs->type = &gs_color_space_type_ICC;
rc_increment(pbase_pcs->cmm_icc_profile_data);
break;
case eSRGB:
case eCRGB:
if ( pl_cspace_init_SRGB(&pbase_pcs, pgs) < 0 )
/* should not happen */
return_error(errorInsufficientMemory);
cie_space = true;
pbase_pcs->cmm_icc_profile_data = pgs->icc_manager->default_rgb;
pbase_pcs->type = &gs_color_space_type_ICC;
rc_increment(pbase_pcs->cmm_icc_profile_data);
break;
default:
return_error(errorIllegalAttributeValue);
}
if (pbase_pcs == NULL)
return_error(errorInsufficientMemory);
if ( params->indexed ) {
pcs = gs_cspace_alloc(pgs->memory, &gs_color_space_type_Indexed);
if ( pcs == NULL ) {
/* free the base space also */
rc_decrement(pbase_pcs, "px_image_color_space");
return_error(errorInsufficientMemory);
}
pcs->base_space = pbase_pcs;
pcs->params.indexed.hival = (1 << depth) - 1;
pcs->params.indexed.lookup.table.size = palette->size;
{
uint n = palette->size;
byte *p = gs_alloc_string(pgs->memory, n,
"px_image_color_space(palette)");
if ( p == 0 ) {
rc_decrement(pbase_pcs, "px_image_color_space");
return_error(errorInsufficientMemory);
}
memcpy(p, palette->data, n);
pcs->params.indexed.lookup.table.data = p;
}
pcs->params.indexed.use_proc = 0;
} else {
pcs = pbase_pcs;
}
gs_image_t_init(pim, pcs);
pim->ColorSpace = pcs;
pim->BitsPerComponent = depth;
if ( params->indexed )
pim->Decode[1] = (1 << depth) - 1;
/* NB - this needs investigation */
if (cie_space && !px_is_currentcolor_pattern(pgs)) {
code = pl_setSRGBcolor((gs_state *)pgs, 0.0, 0.0, 0.0);
}
return code;
}